Cas9-Cleavage Sequences in Size-Reduced Plasmids Enhance Nonviral Genome Targeting of CARs in Primary Human T Cells.
Ruirui JingPeng JiaoJiangqing ChenXianhui MengXiaoyan WuYanting DuanKai ShangLiling QianYanjie HuangJunwei LiuTao HuangJin JinWei ChenXun ZengWeiwei YinXiaofei GaoChun ZhouMichel SadelainJie SunPublished in: Small methods (2021)
T cell genome editing holds great promise to advance a range of immunotherapies but is encumbered by the dependence on difficult-to-produce and expensive viral vectors. Here, small double-stranded plasmid DNA modified to mediate high-efficiency homologous recombination is designed. The resulting chimeric antigen receptor (CAR)-T cells display a similar phenotype, transcriptional profile, and in vivo potency to CAR-T cells generated using adeno-associated viral vector. This method should simplify and accelerate the use of precision engineering to produce edited T cells for research and clinical purposes.
Keyphrases
- crispr cas
- genome editing
- high efficiency
- sars cov
- dna repair
- dna damage
- endothelial cells
- escherichia coli
- gene therapy
- induced pluripotent stem cells
- circulating tumor
- gene expression
- cell free
- single molecule
- big data
- binding protein
- dna binding
- klebsiella pneumoniae
- genome wide
- heat shock
- dna methylation
- oxidative stress
- artificial intelligence
- deep learning
- heat stress